Abstract: A method of marking a fiber-based product includes providing a heat stamp apparatus including a heating element thermally coupled to a stamping block and a temperature sensor thermally coupled to the stamping block. The system further includes a platen bearing an embossed pattern. Marking is accomplished by heating the stamping element to a predetermined temperature via the heating element and information acquired from the temperature sensor, then bringing the embossed pattern in relation to the surface of the fiber-based product (e.g., via direct contact and compression or simply very close to the surface) to form at least one of a corresponding three-dimensional contour and charred surface region.

Abstract: A conformable heat sink interface for an integrated circuit package comprises a mounting plate having a first surface and a deformable membrane having a portion bonded to a second surface of the plate. A cavity is between the second surface of the plate and the deformable membrane. A flowable heat transfer medium is within the cavity. The flowable heat transfer medium has a thermal conductivity of not less than 30 W/m K. The deformable membrane is to conform to a three-dimensional shape of an IC package and the mounting plate has a second surface that is to be adjacent to a heat sink base.

Abstract: Embodiments described herein may be related to apparatuses, processes, and techniques related to incorporating photonics integrated circuitry into a base die, the base die including an optical interconnect at a bottom of the base die to transmit and to receive light signals from outside the base die. The top of the base die includes one or more electrical connectors that are electrically coupled with the photonics integrated circuitry. The base die may be referred to as the photonics die. A system-on-a-chip (SOC) may be electrically coupled with and stacked onto the top of the photonics die. Other embodiments may be described and/or claimed.

Abstract: Embodiments described herein may be related to apparatuses, processes, and techniques related to active optical plugs used to cover optical connectors of a photonics package to protect the connectors. The active optical plugs may also be used to perform testing of the photonics package, including generating light to be sent to the photonics package and to detect light received from the photonics package as part of the test protocol. This allows testing the optical connection and the photonics package, without exposing the optical connections of the package to damage from dust or physical contact. Other embodiments may be described and/or claimed.

Abstract: A photonic connector comprises a first ferrule having a first plurality of optical fibers. A membrane cover is attached to the first ferrule and covers ends of the first plurality of optical fibers. Once the first ferrule is mated with a second ferrule having a second plurality of optical fibers, the membrane cover is pierced by the first plurality of optical fibers, the second plurality of optical fibers, or both.

Abstract: Disclosed embodiments include composite compliant pillars in a micro-structure array that extend at a non-orthogonal angle from a heat-sink base. The array is deployed against an integrated-circuit device package to deflect the composite compliant pillar array under conditions where heat-transfer performance is agnostic to dynamic non-planarity of the integrated-circuit device package.

Abstract: A conformable heat sink interface for an integrated circuit package comprises a mounting plate having a first surface and a deformable membrane having a portion bonded to a second surface of the plate. A cavity is between the second surface of the plate and the deformable membrane. A flowable heat transfer medium is within the cavity. The flowable heat transfer medium has a thermal conductivity of not less than 30 W/m K. The deformable membrane is to conform to a three-dimensional shape of an IC package and the mounting plate has a second surface that is to be adjacent to a heat sink base.

Abstract: An emblem that is located within a recess of a cover. The cover may be part of a cartridge which also contains a number of integrated circuit packages that are mounted to a printed circuit board. The emblem is typically attached to the cover by an adhesive. The recess reduces the likelihood of the emblem being removed from the cover. The emblem preferably contains a hologram which can identify a type of cartridge produced by a manufacturer.

Abstract: A shield for an electronic cartridge which has a pin that attaches a thermal element to a substrate. One edge of the substrate may have a plurality of conductive pads. The shield may have a base located adjacent to the conductive pads. The shield may include an arm which extends from the base and a finger which extends from the arm. The shield can be installed by sliding the arm toward the thermal element so that the pin engages and deflects the finger. The shield is moved toward the thermal element until the pin snaps into a notch located at the end of the finger. The finger may exert a spring force which pushes the base into the thermal element and secures the shield to the cartridge.

Abstract: An electronic cartridge that includes a pair of spring clips which attach a thermal element to an integrated circuit or an integrated circuit package. The integrated circuit/package is mounted to a substrate. The substrate may be a printed circuit board. The cartridge may have a plurality of pins that extend from the thermal element and through the substrate. Each spring clip may have a pair of bent portions that are attached to the pins of the thermal element. The spring clip exerts a pull force that pulls the thermal element into the integrated circuit/package. The bent ports can be deflected so that at least a minimum pull force is always exerted onto the thermal element even with dimensional variations in the parts of the cartridge. The bent portions can therefore accommodate for tolerances in the cartridge while clamping the thermal element to the integrated circuit/package.

Abstract: An emblem that is located within a recess of a cover. The cover may be part of a cartridge which also contains a number of integrated circuit packages that are mounted to a printed circuit board. The emblem is typically attached to the cover by an adhesive. The recess reduces the likelihood of the emblem being removed from the cover. The emblem preferably contains a hologram which can identify a type of cartridge produced by a manufacturer.

Abstract: An electronic cartridge which may include an integrated circuit package that is mounted to a substrate. The substrate may include a plurality of conductive pads that are inserted into an electrical connector. The cartridge may be guided into the connector by a guide rail which has a latch slot. The electronic cartridge may include a latch which extends from a cover that is coupled to the substrate. The latch may extend into the latch slot to secure the cartridge to the connector.

Abstract: An electronic cartridge which includes a cover. The cover is coupled to a substrate which has an integrated circuit package. A portion of the cover extends over and is spaced from a plurality of conductive pads located along an edge of the substrate. The conductive pads can be inserted into a card edge electrical connector that is mounted to a motherboard. The cover of the present invention protects the conductive pads while allowing the substrate to be plugged into a card edge connector.

Abstract: An electronic cartridge that includes a pair of spring clips which attach a thermal element to an integrated circuit or an integrated circuit package. The integrated circuit/package is mounted to a substrate. The substrate may be a printed circuit board. The cartridge may have a plurality of pins that extend from the thermal element and through the substrate. Each spring clip may have a pair of bent portions that are attached to the pins of the thermal element. The spring clip exerts a pull force that pulls the thermal element into the integrated circuit/package. The bent ports can be deflected so that at least a minimum pull force is always exerted onto the thermal element even with dimensional variations in the parts of the cartridge. The bent portions can therefore accommodate for tolerances in the cartridge while clamping the thermal element to the integrated circuit/package.

Abstract: A retention system for an electronic cartridge which mates with connector that is mounted to a substrate. The system may include a first guide rail that is adapted to receive one edge of the electronic cartridge and a second guide rail that is adapted to receive another edge of the electronic cartridge. The guide rails may be mounted to the motherboard by a plurality of threaded fasteners and corresponding nuts. The guide rails guide the electronic cartridge into the connector. The system may further have a beam that extends from the first guide rail to the second guide rail. The guide rails and beam provide structural support for the electronic cartridge.

Abstract: An electronic cartridge. The cartridge may include a first cover and a second cover that are adjacent to a substrate. One or more integrated circuit packages may be mounted to the substrate. The cartridge may include a pin that extends from the first cover and which has a barb that is embedded into the second cover. The embedded barb will damage the second cover if the cover is removed from the cartridge. The present invention thus prevents the removal and re-installation of the cover from the cartridge.

Abstract: An electronic cartridge that may include a cover which is attached to a thermal element. A substrate may be located between the thermal element and the cover. The cartridge may include a first pin which extends from the thermal element through a datum hole of the substrate. The cartridge may also have a second pin which extends from the thermal element through a first float hole of the substrate. The first float hole may have a major diameter and a minor diameter. The major diameter of the first float hole may be larger than the diameter of the second pin so that the second pin can move relative to the substrate. The first float hole allows movement of the second pin when there is a differential thermal expansion between the thermal element and the substrate.